Abstract: A solid-state electrolyte for a multilayer solid-state electrochemical cell is described herein. The electrolyte comprises a lithium electrolyte salt and nanofibers of a cubic phase lithium lanthanum zirconium oxide (c-LLZO), and a polymer interspersed with the nanofibers and electrolyte salt. Electrochemical cells comprising the solid-state electrolyte, and solid-state cathodes comprising the nanofibers of c-LLZO are also described herein.

Abstract: A suspension system for a vehicle includes a frame mounting bracket for mounting to the vehicle. First and second levers are pivotally mounted to the frame mounting bracket. First and second rubber torsion axle assemblies are rigidly mounted to the first and second levers, respectively. A control arm pivotally connects to the first lever and the second lever. The control arm, and the first and second levers are configured to rotate the first rubber torsion axle assembly and the second rubber torsion axle assembly simultaneously when a static or dynamic force is encountered by the suspension assembly. First and second spindle swing arms can be attached to the first and second torsion axle assemblies respectively with the first spindle swing arm extending forward of the first lever with respect to a direction the vehicle normal travels and the second swing arm can trail the second lever in a “push-pull” configuration.

Abstract: A suspension system for a vehicle includes a frame mounting bracket for mounting to the vehicle. The suspension includes front and rear rubber torsion axle assemblies. Front and rear lever assemblies are respectively pivotally attached to the vehicle at front and rear lever pivot points. Outer housings of the rubber torsion axle assemblies are each respectively rigidly mounted to the front and rear lever assemblies. A rigid control arm is pivotally connected at one end to the front lever assembly at a front control arm pivot point and its other end is pivotally connected to the rear lever assembly at a rear control arm pivot point. When the suspension assembly encounters a force causing the front lever assembly to rotate in one direction about the front lever pivot point the rigid control arm causes the rear lever assembly to rotate about the rear lever pivot in an opposite direction.

Abstract: A suspension system for a vehicle includes a frame mounting bracket for mounting to the vehicle. First and second levers are pivotally mounted to the frame mounting bracket. First and second rubber torsion axle assemblies are rigidly mounted to the first and second levers, respectively. A control arm pivotally connects to the first lever and the second lever. The control arm, and the first and second levers are configured to rotate the first rubber torsion axle assembly and the second rubber torsion axle assembly simultaneously when a static or dynamic force is encountered by the suspension assembly. First and second spindle swing arms can be attached to the first and second torsion axle assemblies respectively with the first spindle swing arm extending forward of the first lever with respect to a direction the vehicle normal travels and the second swing arm can trail the second lever in a “push-pull” configuration.

Abstract: A suspension system for a vehicle includes a frame mounting bracket for mounting to the vehicle. The suspension includes front and rear rubber torsion axle assemblies. Front and rear lever assemblies are respectively pivotally attached to the vehicle at front and rear lever pivot points. Outer housings of the rubber torsion axle assemblies are each respectively rigidly mounted to the front and rear lever assemblies. A rigid control arm is pivotally connected at one end to the front lever assembly at a front control arm pivot point and its other end is pivotally connected to the rear lever assembly at a rear control arm pivot point. When the suspension assembly encounters a force causing the front lever assembly to rotate in one direction about the front lever pivot point the rigid control arm causes the rear lever assembly to rotate about the rear lever pivot in an opposite direction.

Abstract: A compact brake system for a wheeled vehicle fits substantially within the profile of a tire and rim to reduce wheel box width to increase cargo space between wheel boxes. In one embodiment, a caliper bracket is mounted on a spindle lever connected to a wheel spindle, eliminating the need for a standard brake flange extending from the spindle and thereby reducing the width of the brake system. The spindle lever is mounted on a torque bar rotatably mounted on an axle to allow vertical movement of the spindle to be reacted in a dampening mechanism. A brake caliper is mounted on the caliper bracket for brakingly engaging a brake rotor. The brake caliper, caliper bracket, spindle lever and spindle are substantially or entirely disposed within the tire profile. Alternately, the brake caliper may be mounted on a drop center spindle or used with a spindle mounted on an axle.

Abstract: A compact brake system for a wheeled vehicle fits substantially within the profile of a tire and rim to reduce wheel box width to increase cargo space between wheel boxes. In one embodiment, a caliper bracket is mounted on a spindle lever connected to a wheel spindle, eliminating the need for a standard brake flange extending from the spindle and thereby reducing the width of the brake system. The spindle lever is mounted on a torque bar rotatably mounted on an axle to allow vertical movement of the spindle to be reacted in a dampening mechanism. A brake caliper is mounted on the caliper bracket for brakingly engaging a brake rotor. The brake caliper, caliper bracket, spindle lever and spindle are substantially or entirely disposed within the tire profile. Alternately, the brake caliper may be mounted on a drop center spindle or used with a spindle mounted on an axle.